Применение бифуркации и рекомбинации микроканалов для микрофлюидных приложений: литературный обзор
Автор: Павар С.А., Чоукси В.К.
Журнал: Российский журнал биомеханики @journal-biomech
Статья в выпуске: 2 (100) т.27, 2023 года.
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Микрожидкостное смешивание используется в микромасштабных системах для быстрого, но тщательного объединения большого количества образцов. Эти устройства способствуют смешиванию проб прежде всего за счет улучшения результата диффузии между потоками нескольких видов. В общем, существует два типа методов микрожидкостного смешивания: активный (при котором используется внешняя силовая сила для возмущения образцов) и пассивный (при котором используются специально разработанные топологии микроканалов для увеличения площади контакта, а также периода контакта образцов). В этом обзорном исследовании используется всесторонний обзор микрофлюидных микросмесителей (активный и пассивный микросмесители). Наряду с изучением гибридных активных и пассивных микросмесителей также тщательно изучается использование жидкостей. Основываясь на этом анализе, мы смогли сравнить индексы смешивания активных и пассивных смесителей, причем максимальный индекс смешивания для активных и пассивных смесителей составляет 0,73, а для пассивных - 0,97. Целью этого обзора является знакомство читателей с микрофлюидикой и ее приложениях.
Микрофлюидика, активный микросмеситель, пассивный микросмеситель, гибридный микросмеситель, микромасштабные системы, образец, диффузия
Короткий адрес: https://sciup.org/146282744
IDR: 146282744 | УДК: 531/534: | DOI: 10.15593/RZhBiomeh/2023.2.03
Application of split and recombine microchannel for microfluidic applications: a review
Microfluidic mixing is used in micro-scale systems to combine numerous samples quickly but thoroughly. These devices promote sample mixing primarily by improving the diffusion result among the fluxes of several species. In general, there are two types of microfluidic mixing methods: active (which employs an external power force to disturb the specimen genus) and passive (which uses specifically designed microchannel topologies to increase the area of contact as well as contact period of the sample species). This review research uses a comprehensive survey under the Microfluidic micromixer (Active and Passive Micro mixer). Along with a study of hybrid Active and Passive Micromixers, the use of microfluidic is also thoroughly examined. Based on this analysis, we were able to compare the mixing indexes of active and passive mixers, with active achieving a maximum mixing index of 0.73 and passive achieving a maximum mixing index of 0.97. At the end of this review, readers will have a better knowledge of microfluidics and its applications in the real world.
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